A Method for Secure Data Exchange Based on Adaptive Reduction of the Incoming Message Stream to Enhance Authentication Reliability

Authors

  • Maksim O. Tanygin
  • Ilya O. Mishin
  • Elena A. Kuleshova
  • Aleksey V. Kiselev

DOI:

https://doi.org/10.24160/1993-6982-2026-4-182-188

Keywords:

secure data exchange, energy efficiency, data reduction, message authentication

Abstract

A method for secure data exchange based on adaptive reduction of the input message stream to improve authentication reliability is proposed. The message processing rules are based on analyzing metainformation about the message stream from the source to the receiver.

A system was studied in which a priori knowledge of the stream properties is the distribution law of a random variable, which is represented by the number of messages transmitted via a common communication channel between two consecutive messages from the source. Based on this, the receiver forms criteria for including incoming messages in the processing activity.

Simulations have revealed that within the specified range, the probability of erroneous message processing is reduced by a factor of 1.05 – 1.15 in comparison with that in the case of using methods based on exclusive processing of messages and associated authentication tags. The method operating parameters boundaries within which the method retains its efficient performance have been determined.

Author Biographies

Maksim O. Tanygin

Dr.Sci. (Techn.), Assistant Professor, Head of Information Security Dept., Southwest State Univer-sity, Kursk; Scopus Author ID: 19640649200; ResearcherID: N-7689-2016; RSCI SPIN Code: 2639-4800; https://orcid.org/0000-0002-4099-1414, e-mail: tanygin@yandex.ru

Ilya O. Mishin

Ph.D.-student of Information Security Dept., Southwest State University, Kursk; ResearcherID:
MXJ-7912-2025; RSCI SPIN Code: 6911-3642; https://orcid.org/0009-0006-8883-1731, e-mail: mishin.ilya46@yandex.ru

Elena A. Kuleshova

Ph.D. (Techn.), Assistant Professor of Information Security Dept., Southwest State University, Kursk; Scopus Author ID: 57216349335; ResearcherID: AAI-9214-2021; RSCI SPIN Code: 9607-8582; https://orcid.org/0000-0002-8270-564X, e-mail: lena.kuleshova.94@mail.ru

Aleksey V. Kiselev

Ph.D. (Techn.), Assistant Professor, Assistant Professor of Computer Engineering Dept., Southwest State University, Kursk; Scopus Author ID: 57337411000; ResearcherID: S-9914-2018; RSCI SPIN Code: 2016-7550; https://orcid.org/0000-0001-7228-0281, e-mail: kiselevalexey1990@gmail.com

References

1. Qiao W. Research on Wireless Sensor Network Technology // Appl. and Computational Eng. 2025. V. 140(1). Pp. 145—150.

2. Li P., Kang R. Optimizing the Design and Application of Wireless Sensor Networks in Smart Cities // Smart Infrastructures in the IoT Era. Cham: Springer, 2025. Pp. 861—875.

3. Nagar S., Neema V., Paranjpe P., Kashiv A. An Efficient Design of IoT Enables Wireless Sensor Network for Energy Optimization in the Agriculture Sector // J. Institution Eng. (India): Series A. 2025. V. 106(3). Pp. 929—940.

4. Khan M.A. e. a. A Multi-layered Assessment System for Trustworthiness Enhancement and Reliability for Industrial Wireless Sensor Networks // Wireless Personal Communications. 2024. V. 137(4). Pp. 1997—2036.

5. Samoliuk T.A. Embedded Systems Technologies Using IoT and Wireless Sensor Networks in Semi-real-time Modeling // Cybernetics and Computer Technol. 2025. No. 1. Pp. 98—105.

6. Dhongadi R., Hirikude S.M. Underwater Acoustic Sensor Networks for Secure Communication // Intern. Research J. Advanced Eng. Hub. 2025. V. 3(7). Pp. 3087—3094.

7. Karthik M., Balakrishna R. Simple Key Distribution for Secure and Energy Efficient Communication in Wireless Sensor Networks // Intern. J. Computational and Experimental Sci. and Eng. 2025. V. 11(2). Pp. 1982—1992.

8. Murad A.E.O. A Lightweight and Secure Protocol for Wireless Medical Sensor Networks in IoT Systems // Jupiter: Publikasi Ilmu Keteknikan Industri, Teknik Elektro dan Informatika. 2025. V. 3(4). Pp. 283—294.

9. Aruna O., Midhunchakkaravathy. A Node Auditor Based Trusted Route Selection with Node Authentication Using Multi Key Distribution Model for Secure Data Transmission // J. Theoretical and Appl. Information Technol. 2024. V. 102(14). Pp. 5556—5571.

10. Sharmila A. e. a. Secure Hybrid Data Transmission Protocol for WSN with Key Management and Message Authentication // SN Computer Sci. 2025. V. 6(5). P. 401.

11. Iqbal S., Sujatha B.R. Secure Authentication and Key Management Based on Hierarchical Enhanced Identity Based Digital Signature in Heterogeneous Wireless Sensor Network // Wireless Networks. 2025. V. 31(1). Pp. 127—147.

12. Алшаиа Х.Я. Формальное описание модели предобработки блока данных для систем с ограниченным размером дополнительных служебных полей // Инфокоммуникации и космические технологии: состояние, проблемы и пути решения: Сб. научных статей по материалам V Всерос. науч.-практ. конф. Курск: Юго-Западный гос. ун-т, 2021. С. 362—365.

13. Zhu R., Boukerche A., Yang Q. An Interference-aware and Collision-free MAC Protocol for Underwater Wireless Sensor Networks // ACM Trans. Sensor Networks. 2025. V. 21(3). Pp. 1—26.

14. Xue L., Lei H., Zhu R. A Collision Avoidance MAC Protocol with Power Control for Adaptive Clustering Underwater Sensor Networks // J. Marine Sci. and Eng. 2025. V. 13(1). P. 76.

15. Tanygin M.O., Alshaeaa H. Y., Kuleshova E.A. A Method of the Transmitted Blocks Information Integrity Control // Radio Electronics, Computer Sci., Control. 2020. No. 1. Pp. 181—189.

16. Hsieh C.-H. e. a. Efficient Data Aggregation and Message Transmission for Information Processing Model in the CPS-WSN // Computers, Materials & Continua. 2025. V. 82(2). Pp. 2869—2891.

17. Ахмад А.А.А., Марухленко А.Л., Добрица В.П., Таныгин М.О. Метод повышения достоверности обмена данными между удалёнными узлами в условиях ограниченного размера идентификационных полей сообщений // Вестник ВГУ. Серия «Системный анализ и информационные технологии». 2022. № 2. С. 38—49.

18. Плугатарев А.В. Модель определения источника сообщений на основе статистического анализа метаданных в открытом канале связи // Прикаспийский журнал: управление и высокие технологии. 2022. № 4(60). С. 30—37.

19. Plugatarev A.V., Tanygin M.O. Model for Determining the Message Source by Analyzing Their Arrival Time // Proc. Intern. Russian Automation Conf. Sochi, 2022. Pp. 388—392.

20. Таныгин М.О. Теоретические основы идентификации источников информации, передаваемой блоками ограниченного размера. Курск: Университетская книга, 2020.

21. Yeu R., Tanigawa Y., Hasegawa A., Tode H. Transmission Time Scheduling for Stations with Different Packet Generation Periods in Smart Factory Environment: System Implementation and Experimental Evaluation // IEICE Trans. Communications. 2025. V. E108. Iss. 4. Pp. 465—476.

22. Wang C.-Y., Wang D., Wang F.-F., Xu G.-A. Multi-factor User Authentication Scheme for Multi-gateway Wireless Sensor Networks // Chinese J. Computers. 2020. V. 43(4). Pp. 683—700.

---

Для цитирования: Таныгин М.О., Мишин И.О., Кулешова Е.А., Киселев А.В. Метод защищённого обмена данными на основе адаптивной редукции входного потока сообщений для повышения достоверности аутентификации // Вестник МЭИ. 2026. № 4. С. 182—188. DOI: 10.24160/1993-6982-2026-4-182-188

---

Конфликт интересов: авторы заявляют об отсутствии конфликта интересов

#

1. Qiao W. Research on Wireless Sensor Network Technology. Appl. and Computational Eng. 2025;140(1):145—150.

2. Li P., Kang R. Optimizing the Design and Application of Wireless Sensor Networks in Smart Cities. Smart Infrastructures in the IoT Era. Cham: Springer, 2025:861—875.

3. Nagar S., Neema V., Paranjpe P., Kashiv A. An Efficient Design of IoT Enables Wireless Sensor Network for Energy Optimization in the Agriculture Sector. J. Institution Eng. (India): Series A. 2025;106(3):929—940.

4. Khan M.A. e. a. A Multi-layered Assessment System for Trustworthiness Enhancement and Reliability for Industrial Wireless Sensor Networks. Wireless Personal Communications. 2024;137(4):1997—2036.

5. Samoliuk T.A. Embedded Systems Technologies Using IoT and Wireless Sensor Networks in Semi-real-time Modeling. Cybernetics and Computer Technol. 2025;1:98—105.

6. Dhongadi R., Hirikude S.M. Underwater Acoustic Sensor Networks for Secure Communication. Intern. Research J. Advanced Eng. Hub. 2025;3(7):3087—3094.

7. Karthik M., Balakrishna R. Simple Key Distribution for Secure and Energy Efficient Communication in Wireless Sensor Networks. Intern. J. Computational and Experimental Sci. and Eng. 2025;11(2):1982—1992.

8. Murad A.E.O. A Lightweight and Secure Protocol for Wireless Medical Sensor Networks in IoT Systems. Jupiter: Publikasi Ilmu Keteknikan Industri, Teknik Elektro dan Informatika. 2025;3(4):283—294.

9. Aruna O., Midhunchakkaravathy. A Node Auditor Based Trusted Route Selection with Node Authentication Using Multi Key Distribution Model for Secure Data Transmission. J. Theoretical and Appl. Information Technol. 2024;102(14):5556—5571.

10. Sharmila A. e. a. Secure Hybrid Data Transmission Protocol for WSN with Key Management and Message Authentication. SN Computer Sci. 2025;6(5):401.

11. Iqbal S., Sujatha B.R. Secure Authentication and Key Management Based on Hierarchical Enhanced Identity Based Digital Signature in Heterogeneous Wireless Sensor Network. Wireless Networks. 2025;31(1):127—147.

12. Alshaia H.Ya. Formal'noe Opisanie Modeli Predobrabotki Bloka Dannyh dlya Sistem s Ogranichennym Razmerom Dopolnitel'nyh Sluzhebnyh Poley. Infokommunikatsii i Kosmicheskie Tekhnologii: Sostoyanie, Problemy i Puti Resheniya: Sb. Nauchnyh Statey po Materialam V Vseros. Nauch.-prakt. Konf. Kursk: Yugo-Zapadnyy Gos. Un-t, 2021:362—365. (in Russian).

13. Zhu R., Boukerche A., Yang Q. An Interference-aware and Collision-free MAC Protocol for Underwater Wireless Sensor Networks. ACM Trans. Sensor Networks. 2025;21(3):1—26.

14. Xue L., Lei H., Zhu R. A Collision Avoidance MAC Protocol with Power Control for Adaptive Clustering Underwater Sensor Networks. J. Marine Sci. and Eng. 2025;13(1):76.

15. Tanygin M.O., Alshaeaa H. Y., Kuleshova E.A. A Method of the Transmitted Blocks Information Integrity Control. Radio Electronics, Computer Sci., Control. 2020;1:181—189.

16. Hsieh C.-H. e. a. Efficient Data Aggregation and Message Transmission for Information Processing Model in the CPS-WSN. Computers, Materials & Continua. 2025;82(2):2869—2891.

17. Ahmad A.A.A., Maruhlenko A.L., Dobritsa V.P., Tanygin M.O. Metod Povysheniya Dostovernosti Obmena Dannymi Mezhdu Udalennymi Uzlami v Usloviyah Ogranichennogo Razmera Identifikatsionnyh Poley Soobshcheniy. Vestnik VGU. Seriya «Sistemnyy Analiz i Informatsionnye Tekhnologii». 2022;2:38—49. (in Russian).

18. Plugatarev A.V. Model' Opredeleniya Istochnika Soobshcheniy na Osnove Statisticheskogo Analiza Metadannyh v Otkrytom Kanale Svyazi. Prikaspiyskiy Zhurnal: Upravlenie i Vysokie Tekhnologii. 2022;4(60):30—37. (in Russian).

19. Plugatarev A.V., Tanygin M.O. Model for Determining the Message Source by Analyzing Their Arrival Time. Proc. Intern. Russian Automation Conf. Sochi, 2022:388—392.

20. Tanygin M.O. Teoreticheskie Osnovy Identifikatsii Istochnikov Informatsii, Peredavaemoy Blokami Ogranichennogo Razmera. Kursk: Universitetskaya Kniga, 2020. (in Russian).

21. Yeu R., Tanigawa Y., Hasegawa A., Tode H. Transmission Time Scheduling for Stations with Different Packet Generation Periods in Smart Factory Environment: System Implementation and Experimental Evaluation. IEICE Trans. Communications. 2025;E108(4):465—476.

22. Wang C.-Y., Wang D., Wang F.-F., Xu G.-A. Multi-factor User Authentication Scheme for Multi-gateway Wireless Sensor Networks. Chinese J. Computers. 2020;43(4):683—700

---

For citation: Tanygin M.O., Mishin I.O., Kuleshova E.A., Kiselev A.V. A Method for Secure Data Exchange Based on Adaptive Reduction of the Incoming Message Stream to Enhance Authentication Reliability. Bulletin of MPEI. 2026;4:182—188. (in Russian). DOI: 10.24160/1993-6982-2026-4-182-188

---

Conflict of interests: the authors declare no conflict of interest

Published

2026-08-23

Issue

Section

Information security methods and systems, information security (technical sciences) (2.3.6.)